Sustainable Polygeneration based on Carbon Capture and Utilisation
1st Edition
Published on 2. March 2026
720 pages
978-3-527-85084-6 (ISBN)
Description
The book discusses all methods of CO2 capture and utilisation with the links between the conversion processes and CO2 capture and utilisation shown in terms of polygeneration. The numerical simulation of polygeneration plants based on one-dimensional process simulation models (steady-state and dynamic) and three-dimensional CFD models is explained. Furthermore, the theoretical parts are connected with practice by research data from one of the world?s largest pilot plants from the last 20 years.
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Falah Alobaid | Bernd Epple
Sustainable Polygeneration based on Carbon Capture and Utilisation
Book
04/2026
1st Edition
Wiley-VCH
€289.00
Available immediately
Persons
Falah Alobaid (Head of the Institute for Industrial Energy System at LUT University) has fundamental knowledge and about 20 years of experience in research in the field of energy systems and process engineering applications. He has coordinated and participated in large national and international research projects (total budget over ?50 million). Working as a project and administrative leader in various industrial and research projects has also created a platform for establishing contacts and building a strong global network.
Bernd Epple (Head of the Institute for Energy Systems and Technology at TUDa University) was head of the departments ?Research and Development? and ?Power Plant Design? at ALSTOM Power Boiler GmbH and is now head of Institute for Energy Systems and Technology and professor at TUDa since 2004.
Bernd Epple (Head of the Institute for Energy Systems and Technology at TUDa University) was head of the departments ?Research and Development? and ?Power Plant Design? at ALSTOM Power Boiler GmbH and is now head of Institute for Energy Systems and Technology and professor at TUDa since 2004.
Content
1) Introduction
2) Energy Conversion Processes
3) Carbon Capture and Utilisation
4) Sustainability and Polygeneration
5) Numerical Simulation of Polygeneration
6) Conclusion
Surface, Cross-Sectional Area [m2], [m2] Translational Acceleration [m/s2] Angular Acceleration [rad/s2] Concentration [kmol/m3] Specific Heat Capacity [J/kg K] Diameter [m] Energy [J] Force [N] Force Density [N/m3] Particle Acceleration [m/s2] Standard Gravity [m/s2] Pump Head [m] Enthalpy, Height [kJ/kg], [m] Unit Matrix [--] Moment of Inertia, Current [kg m2], [A] Superficial Velocity [m/s] Reaction Rate Constant [1/s] Length [m] Moment of Force, Molar Mass [N m], [kg/kmol] Mass [kg] Mass Flow Rate [kg/s] Number of Particles [--] Power [W] Static Pressure [N/m2] Heat Flow Charge, Rate of Heat Flow [A s], Radius, Reaction Rate [m], [kmol/m3s] Source Term [different] Distance [m] Stress Tensor for Newtonian Fluids [N/m2] Temperature [K] Time [s] Internal Energy, Voltage [J], [V] Translational Velocity [m/s] Volume, Velocity [m3], [m/s] Volumetric Flow Rate (m3/s) Weight [kg] Angular Velocity [rad/s] Wobbe Index [MJ/Nm3] Mass Fraction, Molar Fraction [kg/kgmix], [mol/molmix] Cartesian Coordinates [m]
Heat transfer Coefficient [W/K m2] Interphase Momentum Exchange Coefficient [kg/s m3] Isentropic Exponent [--] Penetration Depth [m] Restitution Coefficient [--] Volumetric Void Fraction [--] Mass Transfer [kg/s m3] Efficiency [--] Thermal Conductivity, Bulk Viscosity [W/K m], [kg/m s] Dynamic Viscosity [kg/m s] Angular Velocity [rads] Density [kg/m3] Surface Tension [N/m] Stress Tensor [N/m2] Poisson's Number, Specific Volume [--], [m3}/kg] Physical Value [different] Angular Displacement, Internal Friction Angle rad, rad Granular Temperature [m2/s2] Void Fraction [--] Pressure Ratio [--]
Kn Knudsen Number Pr Prandtl Number Re Reynolds Number Sc Schmidt Number Stk Stokes Number
Average Non-Dimensional Initial, Standard, Reference calc Calcination carb Carbonation eq Equilibrium Hydraulic, Heat Heterogeneous Homogenous Horizontal I Integral Backward Basset Boudouard Control Volume Dimensional, Derivative Device Control Ergun Feedforward Magnus Non-Condensable Oxygen Carrier Particle, Proportional Particle to Fluid Particle-Particle Particle-Wall Rotation Shear Flow Saffman Volume Accumulation Adhesion Adsorption Air Annular Aperture Attemperator Average Boundary Condition Binary Biomass Blow-down Bubble Buoyancy Char Characteristic Capillary Cavity Cleanliness Collision Compressor Contact Control Convection Cooling Close-Packing Limit Critical Denominator Derivation Diffusion Displaced Downcomer Drag Droplet Drum Dust Dynamic Elastic Electric Electrostatic End-loss Equivalent External Fluid Fluid to Particle Flue...
2) Energy Conversion Processes
3) Carbon Capture and Utilisation
4) Sustainability and Polygeneration
5) Numerical Simulation of Polygeneration
6) Conclusion
Nomenclature
Latin symbols
Surface, Cross-Sectional Area [m2], [m2] Translational Acceleration [m/s2] Angular Acceleration [rad/s2] Concentration [kmol/m3] Specific Heat Capacity [J/kg K] Diameter [m] Energy [J] Force [N] Force Density [N/m3] Particle Acceleration [m/s2] Standard Gravity [m/s2] Pump Head [m] Enthalpy, Height [kJ/kg], [m] Unit Matrix [--] Moment of Inertia, Current [kg m2], [A] Superficial Velocity [m/s] Reaction Rate Constant [1/s] Length [m] Moment of Force, Molar Mass [N m], [kg/kmol] Mass [kg] Mass Flow Rate [kg/s] Number of Particles [--] Power [W] Static Pressure [N/m2] Heat Flow Charge, Rate of Heat Flow [A s], Radius, Reaction Rate [m], [kmol/m3s] Source Term [different] Distance [m] Stress Tensor for Newtonian Fluids [N/m2] Temperature [K] Time [s] Internal Energy, Voltage [J], [V] Translational Velocity [m/s] Volume, Velocity [m3], [m/s] Volumetric Flow Rate (m3/s) Weight [kg] Angular Velocity [rad/s] Wobbe Index [MJ/Nm3] Mass Fraction, Molar Fraction [kg/kgmix], [mol/molmix] Cartesian Coordinates [m]
Greek symbols
Heat transfer Coefficient [W/K m2] Interphase Momentum Exchange Coefficient [kg/s m3] Isentropic Exponent [--] Penetration Depth [m] Restitution Coefficient [--] Volumetric Void Fraction [--] Mass Transfer [kg/s m3] Efficiency [--] Thermal Conductivity, Bulk Viscosity [W/K m], [kg/m s] Dynamic Viscosity [kg/m s] Angular Velocity [rads] Density [kg/m3] Surface Tension [N/m] Stress Tensor [N/m2] Poisson's Number, Specific Volume [--], [m3}/kg] Physical Value [different] Angular Displacement, Internal Friction Angle rad, rad Granular Temperature [m2/s2] Void Fraction [--] Pressure Ratio [--]
Dimensionless numbers
Kn Knudsen Number Pr Prandtl Number Re Reynolds Number Sc Schmidt Number Stk Stokes Number
Subscripts and indices
Average Non-Dimensional Initial, Standard, Reference calc Calcination carb Carbonation eq Equilibrium Hydraulic, Heat Heterogeneous Homogenous Horizontal I Integral Backward Basset Boudouard Control Volume Dimensional, Derivative Device Control Ergun Feedforward Magnus Non-Condensable Oxygen Carrier Particle, Proportional Particle to Fluid Particle-Particle Particle-Wall Rotation Shear Flow Saffman Volume Accumulation Adhesion Adsorption Air Annular Aperture Attemperator Average Boundary Condition Binary Biomass Blow-down Bubble Buoyancy Char Characteristic Capillary Cavity Cleanliness Collision Compressor Contact Control Convection Cooling Close-Packing Limit Critical Denominator Derivation Diffusion Displaced Downcomer Drag Droplet Drum Dust Dynamic Elastic Electric Electrostatic End-loss Equivalent External Fluid Fluid to Particle Flue...
